OPTIMA: Scalable, multi-stage, 640-Gbit/s ATM switching system based on advanced electronic and optical WDM technologies

Naoaki Yamanaka; Eiji Oki; Seisho Yasukawa; Ryusuke Kawano; Katsuhiko Okazaki

OPTIMA: Scalable, multi-stage, 640-Gbit/s ATM switching system based on advanced electronic and optical WDM technologies

Naoaki Yamanaka, Eiji Oki, Seisho Yasukawa, Ryusuke Kawano, Katsuhiko Okazaki

Research output: Contribution to journal › Article › peer-review

Abstract

An experimental 640-Gbit/s ATM switching system is described. The switching system is scalable and quasi-non-blocking and uses hardware self-rearrangement in a three-stage network. Hardware implementation results for the switching system are presented. The switching system is fabricated using advanced 0.25-μm CMOS devices, high-density multi-chipmodule (MCM) technology, and optical wavelength-division-multiplexing (WDM) interconnection technology. A scalable 80-Gbit/s switching module is fabricated in combination with a developed scalable-distributed-arbitration technique, and a WDM interconnection system that connects multiple 80-Gbit/s switching modules is developed. Using these components, an experimental 640-Gbit/s switching system is partially constructed. The 640-Gbit/s switching system will be applied to future broadband ATM networks.

Original language	English
Pages (from-to)	1488-1495
Number of pages	8
Journal	IEICE Transactions on Communications
Volume	E83-B
Issue number	7
Publication status	Published - 2000 Jan 1
Externally published	Yes

Keywords

ATM
Interconnection
Multi-chip module
Switch
WDM

ASJC Scopus subject areas

Software
Computer Networks and Communications
Electrical and Electronic Engineering

Cite this

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title = "OPTIMA: Scalable, multi-stage, 640-Gbit/s ATM switching system based on advanced electronic and optical WDM technologies",

abstract = "An experimental 640-Gbit/s ATM switching system is described. The switching system is scalable and quasi-non-blocking and uses hardware self-rearrangement in a three-stage network. Hardware implementation results for the switching system are presented. The switching system is fabricated using advanced 0.25-μm CMOS devices, high-density multi-chipmodule (MCM) technology, and optical wavelength-division-multiplexing (WDM) interconnection technology. A scalable 80-Gbit/s switching module is fabricated in combination with a developed scalable-distributed-arbitration technique, and a WDM interconnection system that connects multiple 80-Gbit/s switching modules is developed. Using these components, an experimental 640-Gbit/s switching system is partially constructed. The 640-Gbit/s switching system will be applied to future broadband ATM networks.",

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author = "Naoaki Yamanaka and Eiji Oki and Seisho Yasukawa and Ryusuke Kawano and Katsuhiko Okazaki",

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AU - Yamanaka, Naoaki

AU - Oki, Eiji

AU - Yasukawa, Seisho

AU - Kawano, Ryusuke

AU - Okazaki, Katsuhiko

PY - 2000/1/1

Y1 - 2000/1/1

N2 - An experimental 640-Gbit/s ATM switching system is described. The switching system is scalable and quasi-non-blocking and uses hardware self-rearrangement in a three-stage network. Hardware implementation results for the switching system are presented. The switching system is fabricated using advanced 0.25-μm CMOS devices, high-density multi-chipmodule (MCM) technology, and optical wavelength-division-multiplexing (WDM) interconnection technology. A scalable 80-Gbit/s switching module is fabricated in combination with a developed scalable-distributed-arbitration technique, and a WDM interconnection system that connects multiple 80-Gbit/s switching modules is developed. Using these components, an experimental 640-Gbit/s switching system is partially constructed. The 640-Gbit/s switching system will be applied to future broadband ATM networks.

AB - An experimental 640-Gbit/s ATM switching system is described. The switching system is scalable and quasi-non-blocking and uses hardware self-rearrangement in a three-stage network. Hardware implementation results for the switching system are presented. The switching system is fabricated using advanced 0.25-μm CMOS devices, high-density multi-chipmodule (MCM) technology, and optical wavelength-division-multiplexing (WDM) interconnection technology. A scalable 80-Gbit/s switching module is fabricated in combination with a developed scalable-distributed-arbitration technique, and a WDM interconnection system that connects multiple 80-Gbit/s switching modules is developed. Using these components, an experimental 640-Gbit/s switching system is partially constructed. The 640-Gbit/s switching system will be applied to future broadband ATM networks.

KW - ATM

KW - Interconnection

KW - Multi-chip module

KW - Switch

KW - WDM

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ER -

OPTIMA: Scalable, multi-stage, 640-Gbit/s ATM switching system based on advanced electronic and optical WDM technologies

Abstract

Keywords

ASJC Scopus subject areas

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